Systems and methods for scheduling the operation of building resources

• US 9,740,188 B2
• Filed: 11/24/2015
• Issued: 08/22/2017
• Est. Priority Date: 05/21/2007
• Status: Active Grant

• Current Assignee: Honeywell International Inc.
• Original Assignee: Honeywell International Inc.
• Inventors: Fuller, Gary J., Vongtongtip, Stevun, Tickell, Sharon
• Primary Examiner(s): Gart, Matthew
• Assistant Examiner(s): Swartz, Stephen S
• Application Number:
  US14/951,345
• Publication Number:
  US 20160077511A1
• Time in Patent Office: 637 Days
• CPC Class Codes: G05B 15/02 electric
• CPC Class Codes: G05B 19/106 for selecting a programme, variable or parameter
• CPC Class Codes: G05B 2219/25339 Supervisory plus control computer
• CPC Class Codes: G05B 2219/2614 HVAC, heating, ventillation, climate control
• CPC Class Codes: G05B 2219/2642 Domotique, domestic, home control, automation, smart house
• CPC Class Codes: G06F 3/04842 Selection of displayed objects or displayed text elements G06F3/0482 takes precedence
• CPC Class Codes: G06Q 10/06 Resources, workflows, human or project management; Enterprise or organisation planning; Enterprise or organisation modelling
• CPC Class Codes: G06Q 10/0631 Resource planning, allocation, distributing or scheduling for enterprises or organisations

Abstract

Described herein are systems and methods for scheduling the operation of building resources. In overview, some embodiments provide a central interface for allowing the scheduling of a large number of devices within a building, irrespective of the manufacturer or scheduling requirements of the individual devices. For example, one embodiment provides, a software product that executes on a processor for allowing a user to submit scheduling preference in relation to one or more building resources. The software package analyses and applies these preferences across the devices described by the building resource or resources.

Claims

1. A computer implemented method configured to enable user control over scheduling of physical target devices via a graphical user interface, the method including:

providing a graphical user interface that is configured to;

(i) enable a user to select one or more building resources from an available set of predefined building resources, wherein each set of predefined building resources is representative of a set of discrete physical hardware devices at distributed locations in a building, wherein each target device is capable of adopting at least an activated operational state and a deactivated operational state;

(ii) for the selected one or more building resources, enabling the user to define an operational schedule, wherein defining the operational schedule includes accepting user input representative of times during a specified period for which each of the selected one or more building resources is to be activated, wherein the user interface is configured to enable a user to define, for a given building resource;

an operational schedule for a first day; and

a recurrence parameter, wherein the recurrence parameter is representative of a category of day types, wherein defining of the recurrence parameter causes automated defining of operational schedules for a plurality of further days of the defined day type;

in response to information inputted by the user via the graphical user interface defining an operational schedule, executing an automated process including the following steps;

(i) for each of the selected one or more building resources, identifying the hardware devices of which the building resource is representative;

(ii) for each identified hardware device, accessing a repository of scheduling protocols thereby to determine, for each hardware device;

 

(a) data representative of a communications protocol defining a data format and communications channel associated with the hardware device, wherein the data representative of the communications protocol and communications channel is configured to enable a scheduling module to transmit scheduling instructions to the hardware device; and

 

(b) data representative of a schedule storage protocol, wherein the schedule storage protocol defines a manner in which scheduling information is able to be stored locally by the target device;

(iii) for each identified hardware device, operating the scheduling module providing one or more signals in accordance with the communications protocol for that hardware device based on the data representative of a schedule storage protocol, such that the hardware device is programmed to adopt its activated operational state whenever a user-defined operational schedule for the building resource of which that hardware device a part defines that the more building resources is to be activated;

wherein providing the one or more signals includes periodically reprogramming internal scheduling memory storage for a given hardware device in the case that the schedule storage protocol defining a manner in which scheduling information is able to be stored locally by the target device defines an ability to store scheduling information for a maximum time period that is less than a total time period spanned by the defined operational schedule.

2. A method according to claim 1 wherein the recurrence parameter is selected from a set of recurrence parameters including:

daily, weekly, monthly, weekdays, and weekends.

3. A method according to claim 1 wherein the user defines a given operational schedule for a specific set of one or more building resources spanning a time period from Time A to Time B,

wherein the one or more building resources are representative of hardware devices including:

(i) at least one first-category hardware device, wherein the or each first category hardware device is configured to maintain, in a memory module provided by that hardware device, scheduling data defining operation settings spanning a time period of greater than or equal to from a Time A to a Time B, wherein the period of time from Time A to Time B is greater than 24 hours, wherein being configured to maintain data defining operation settings spanning a time period of greater than or equal to from a Time A to a Time B includes maintaining data defining an operational change at Time A and data defining an operational chance at a Time B or a time following Time B;

(ii) at least one second-category hardware device, wherein the or each second category hardware device is configured to maintain, in a memory module provided by that hardware device, scheduling data for a period of 24 hours only, such any given second-category device is not able to be programmed with scheduling data defining operation settings spanning a time period of greater than or equal to from a Time A to a Time B, wherein being configured to maintain data defining operation settings spanning a time period of 24 hours includes maintaining data defining an operational change at Time A and data defining an operational change at a Time C, wherein time C is a time up to 24 hours of Time A;

(iii) at least one third-category hardware device, wherein the or each third category hardware device is unable to maintain scheduling data in a local memory module, such that any given second-category device is not able to be programmed with scheduling data defining any future changes in operational settings;

wherein providing the one or more signals includes;

(i) for each first category hardware device programming the hardware device'"'"'s local memory with scheduling data for Time A to Time B, scheduling data defining an operational change at time A and Time B;

(ii) for each second category hardware device, initially programming the hardware device'"'"'s local memory with scheduling data for Time A to Time C, wherein Time C is 24 hours following time A, including an operational change at Time A, and subsequently within 24 hours of Time B programming the hardware device'"'"'s local memory with scheduling data for a time period including Time B, including an operational change at Time B; and

(iii) for each third hardware device, initially programming the hardware device with an operational state for Time A, and providing subsequent commands to the hardware device thereby to effect scheduled changes in operational state on an as required-basis between Time A and Time B including an operational change at time B.

4. A method according to claim 1 wherein the user defines a given operational schedule for a specific set of one or more building resources, wherein the one or more building resources include an HVAC-support resource, a light-support resource, and an access control-support resource.

5. A method according to claim 1 wherein providing the one or more signals includes applying a set of time-specific operation rules, wherein the time specific operation rules include:

a requirement that a first hardware device adopt an activated operational state whenever a second hardware device adopts an activated operational state.

6. A method according to claim 1 wherein providing the one or more signals includes applying a set of time-specific operation rules, wherein the time specific operation rules include:

a requirement that a first hardware device adopt an activated operational state a defined time period prior to a second hardware device adopting an activated operational state, such that for a given operational schedule for a given building resources two or more hardware devices are transitioned into their respective operational states in a staggered manner.

7. A method according to claim 6 wherein for a given operational schedule for a given building resources two or more hardware devices are transitioned into their respective operational states in a staggered manner, with a first of the hardware devices transitioning into its operational state at a point in time preceding the defined specified period for which its building resources is to be activated thereby to enable functional activation of the building resource at the commencement of the defined specified period for which its building resources is to be activated.

8. A computer system configured to perform a configured to enable user control over scheduling of physical target devices via a graphical user interface, the method including:

providing a graphical user interface that is configured to;

(i) enable a user to select one or more building resources from an available set of predefined building resources, wherein each set of predefined building resources is representative of a set of discrete physical hardware devices at distributed locations in a building, wherein each target device is capable of adopting at least an activated operational state and a deactivated operational state;

(ii) for the selected one or more building resources, enabling the user to define an operational schedule, wherein defining the operational schedule includes accepting user input representative of times during a specified period for which each of the selected one or more building resources is to be activated, wherein the user interface is configured to enable a user to define, for a given building resource;

an operational schedule for a first day; and

a recurrence parameter, wherein the recurrence parameter is representative of a category of day types, wherein defining of the recurrence parameter causes automated defining of operational schedules for a plurality of further days of the defined day type;

in response to information inputted by the user via the graphical user interface defining an operational schedule, executing an automated process including the following steps;

(i) for each of the selected one or more building resources, identifying the hardware devices of which the building resource is representative;

(ii) for each identified hardware device, accessing a repository of scheduling protocols thereby to determine, for each hardware device;

(a) data representative of a communications protocol defining a data format and communications channel associated with the hardware device, wherein the data representative of the communications protocol and communications channel is configured to enable a scheduling module to transmit scheduling instructions to the hardware device; and

(b) data representative of a schedule storage protocol, wherein the schedule storage protocol defines a manner in which scheduling information is able to be stored locally by the target device;

(iii) for each identified hardware device, operating the scheduling module providing one or more signals in accordance with the communications protocol for that hardware device based on the data representative of a schedule storage protocol, such that the hardware device is programmed to adopt its activated operational state whenever a user-defined operational schedule for the building resource of which that hardware device a part defines that the more building resources is to be activated;

wherein providing the one or more signals includes periodically reprogramming internal scheduling memory storage for a given hardware device in the case that the schedule storage protocol defining a manner in which scheduling information is able to be stored locally by the target device defines an ability to store scheduling information for a maximum time period that is less than a total time period spanned by the defined operational schedule.

9. A system according to claim 8 wherein the recurrence parameter is selected from a set of recurrence parameters including:

daily, weekly, monthly, weekdays, and weekends.

10. A system according to claim 8 wherein the user defines a given operational schedule for a specific set of one or more building resources spanning a time period from Time A to Time B,

wherein the one or more building resources are representative of hardware devices including:

(i) at least one first-category hardware device, wherein the or each first category hardware device is configured to maintain, in a memory module provided by that hardware device, scheduling data defining operation settings spanning a time period of greater than or equal to from a Time A to a Time B, wherein the period of time from Time A to Time B is greater than 24 hours, wherein being configured to maintain data defining operation settings spanning a time period of greater than or equal to from a Time A to a Time B includes maintaining data defining an operational change at Time A and data defining an operational chance at a Time B or a time following Time B;

(ii) at least one second-category hardware device, wherein the or each second category hardware device is configured to maintain, in a memory module provided by that hardware device, scheduling data for a period of 24 hours only, such any given second-category device is not able to be programmed with scheduling data defining operation settings spanning a time period of greater than or equal to from a Time A to a Time B, wherein being configured to maintain data defining operation settings spanning a time period of 24 hours includes maintaining data defining an operational change at Time A and data defining an operational change at a Time C, wherein time C is a time up to 24 hours of Time A;

(iii) at least one third-category hardware device, wherein the or each third category hardware device is unable to maintain scheduling data in a local memory module, such that any given second-category device is not able to be programmed with scheduling data defining any future changes in operational settings;

wherein providing the one or more signals includes;

(i) for each first category hardware device programming the hardware device'"'"'s local memory with scheduling data for Time A to Time B, scheduling data defining an operational change at time A and Time B;

(ii) for each second category hardware device, initially programming the hardware device'"'"'s local memory with scheduling data for Time A to Time C, wherein Time C is 24 hours following time A, including an operational change at Time A, and subsequently within 24 hours of Time B programming the hardware device'"'"'s local memory with scheduling data for a time period including Time B, including an operational change at Time B; and

(iii) for each third hardware device, initially programming the hardware device with an operational state for Time A, and providing subsequent commands to the hardware device thereby to effect scheduled changes in operational state on an as required-basis between Time A and Time B including an operational change at time B.

11. A system according to claim 8 wherein the user defines a given operational schedule for a specific set of one or more building resources, wherein the one or more building resources include an HVAC-support resource, a light-support resource, and an access control-support resource.

12. A system according to claim 8 wherein providing the one or more signals includes applying a set of time-specific operation rules, wherein the time specific operation rules include:

a requirement that a first hardware device adopt an activated operational state whenever a second hardware device adopts an activated operational state.

13. A system according to claim 8 wherein providing the one or more signals includes applying a set of time-specific operation rules, wherein the time specific operation rules include:

a requirement that a first hardware device adopt an activated operational state a defined time period prior to a second hardware device adopting an activated operational state, such that for a given operational schedule for a given building resources two or more hardware devices are transitioned into their respective operational states in a staggered manner.

14. A system according to claim 13 wherein for a given operational schedule for a given building resources two or more hardware devices are transitioned into their respective operational states in a staggered manner, with a first of the hardware devices transitioning into its operational state at a point in time preceding the defined specified period for which its building resources is to be activated thereby to enable functional activation of the building resource at the commencement of the defined specified period for which its building resources is to be activated.